The UK's largest hydrogen project has been scrapped; the planned site will instead host a large-scale data center.

However, BP has formally withdrawn the project. In a letter to the UK Department for Energy Security and Net Zero, BP stated that its decision to suspend the H2Teesside project was not made 'lightly', but rather due to 'irreconcilable conflicts' between the data center and hydrogen plant plans for the same site. It added that 'the data center planning application constitutes a "material change of circumstances" affecting the site, and hydrogen demand in the Teesside region has also deteriorated.' This means that, after months of delays caused by site-related issues, BP no longer intends to proceed with the H2Teesside project. This flagship UK hydrogen initiative—Britain’s largest—is now definitively cancelled and will be replaced by an artificial intelligence (AI) data center. Caption: BP cancels its major blue-hydrogen project in the UK. As a cornerstone of BP’s low-carbon strategy, the H2Teesside project has drawn significant attention since its initial announcement in 2021. Focused on the blue-hydrogen pathway, the project aimed to produce hydrogen from natural gas, coupled with carbon capture and storage (CCS) infrastructure. It formed a key part of BP’s commitment to invest £2 billion to transform Teesside into a low-carbon hub. Previously, BP announced that H2Teesside would become the UK’s largest hydrogen project, building production facilities capable of generating up to 1 gigawatt of blue hydrogen by 2030—accounting for approximately 20% of the UK’s targeted hydrogen output. BP began applying for a Development Consent Order (DCO) in March 2024—a mandatory approval for nationally significant infrastructure projects. Had the government issued the DCO to BP by December 4, the company would have gained statutory powers to compulsorily acquire the land it required. Yet Teesworks Ltd—a subsidiary of South Tees Development Company (STG), the landowner—stated its aim to maximize local community benefits from the site. Teesworks Ltd opposed BP’s hydrogen proposal and, in August this year, secured planning permission from Redcar and Cleveland Borough Council to construct a massive AI data center on the site. In a detailed letter outlining its objections to BP’s plan, STG asserted that the proposed data center holds 'critical national significance.' Moreover, UK government ministers have designated the former steelworks site in Teesside as one of the country’s official 'AI Growth Zones'—a vision encompassing Europe’s largest data center, covering nearly 500,000 square meters, and backed by the UK Department for Science, Innovation and Technology. The UK’s ruling Conservative Party is pinning hopes on AI technology to accelerate national economic growth. The Prime Minister has previously stated that AI will help deliver the government’s 'National Renewal over Ten Years' agenda. The UK government first launched its AI Growth Zones initiative in January this year under the 'AI Opportunities Action Plan.' This model aims to significantly enhance the UK’s competitiveness in AI. Designated zones offer streamlined planning approvals and energy incentives—tailored to meet the enormous power demands of data centers. Caption: Rendering of the large data center at the Teesside steelworks site. In fact, the demise of the H2Teesside project had long been foreshadowed.

In-depth global market analysis of power supply for data centers.

Power supply for data centers can also be segmented by downstream customer type and facility operating model, including hyperscale cloud and AI compute centers, third-party colocation data centers, large enterprises and private or hybrid clouds, telecommunications operators and telecom clouds, research and government facilities, and edge and distributed computing. Hyperscale cloud and AI compute centers typically adopt purpose-built power capacity planning, equipment redundancy, and rack-level power architecture, selecting power conversion equipment based on the load characteristics of their computing platforms. Third-party colocation data centers must accommodate diverse tenant equipment configurations, electricity metering requirements, capacity allocation, and reliability expectations. Large enterprise and private cloud customers usually need to integrate new power infrastructure with existing IT and electrical systems, prioritizing system compatibility, operational procedures, and equipment replacement scheduling. Telecom operator data center power systems may involve traditional telecom DC power supplies, AC distribution, and remote monitoring systems—the specific architecture depending on the type of central office and network equipment requirements. Research and government facilities select power systems based on high-performance computing needs, data processing workloads, security requirements, and procurement specifications. Edge computing facilities deploy modular power equipment tailored to on-site spatial constraints, load capacity, and maintenance conditions. Across all customer segments, technical evaluations during procurement must consider power capacity, redundancy targets, fault protection, equipment certifications, and operations & maintenance requirements. Downstream market opportunities for data center power supply stem from new data center construction, expansion of existing facilities, equipment refresh cycles, and adjustments to IT platform power architectures. When launching new projects, hyperscale cloud and AI compute centers must complete grid interconnection planning, facility power distribution design, backup power configuration, and rack-level power system matching. Third-party colocation data centers deploy corresponding power distribution equipment based on leased capacity, cabinet configurations, and facility redundancy schemes. Large enterprises and private cloud facilities—during server upgrades, application migrations, or system expansions—may require UPS replacements, distribution circuit reconfigurations, rack PDU upgrades, and power monitoring system modernization. Telecom operators, research institutions, government agencies, and edge computing facilities likewise configure backup power, modular conversion equipment, and remote monitoring capabilities according to their operational requirements. For equipment manufacturers, customer procurement activities span large-scale project design, bulk delivery of standardized equipment, co-development for specific platforms, and retrofitting of legacy installations. Actual equipment demand is jointly determined by construction scale, power capacity, load profiles, reliability requirements, and equipment refresh cycles. Interface coordination among power supply equipment, computing platforms, energy storage systems, and power monitoring systems constitutes a critical aspect of related project design and implementation. Regional analysis: The regional market for data center power supply is closely tied to data center construction activity, grid infrastructure, domestic equipment manufacturing ecosystems, and local technical standards. North American data center development involves major cloud service providers, AI compute facilities, third-party colocation centers, and enterprise computing infrastructure—requiring compliance with local electrical codes, grid interconnection regulations, and equipment certification procedures. The European market encompasses diverse grid architectures and national electrical regimes; facility development entails considerations around power supply reliability, energy efficiency, environmental compliance, and cross-border equipment certification.

National Grid to Site Biggest Substation in UK Near Planned Teesside Datacentre

7 hours ago

National Grid acquired land for the UK's largest electricity substation on Teesside to power a massive new AI datacentre. The project aims to deliver 3.2GW capacity to support regional digital infrastructure and economic development.

theguardian

National Grid to Site Biggest Substation in UK Near Planned Teesside Datacentre

FAQ